Abstract: A memory includes an array of memory cells, each memory cell including resistive material, a first insulation material laterally surrounding the resistive material of each memory cell, and a heat spreader between the memory cells to thermally isolate each memory cell.

Abstract: An array of vertical trigate transistors and method of production are disclosed. One embodiment provides an array of selection transistors for selecting one of a plurality of memory cells. A selection transistor is a vertical trigate transistor.

Abstract: A DRAM memory cell array is fabricated such that, for each memory cell of the array, the gate electrode is initially produced such that it is insulated from all the other gate electrodes assigned to a certain word line, and is only connected to the other gate electrodes assigned to the corresponding word line via the word line in a subsequent step.

Abstract: A method of fabricating a resistive storage device is provided. The method generally comprises providing an electrode structure stack comprising a first electrode and an electrode structure mask arranged at the first electrode, forming a support structure at least partly at the electrode structure mask, removing the electrode structure mask to leave a storage region window in the support structure, and forming a resistive storage region in the storage region window at the first electrode.

Abstract: An integrated circuit, a memory cell, memory device and method of operating the memory device is disclosed. In one embodiment, an integrated circuit having a resistively switching memory cell includes a bitline electrode and a second electrode having a lower voltage potential than the bitline electrode; a switching active volume and a selection transistor connected in series between the bitline electrode and the second electrode. The second electrode is connected, via a connection transistor, to a third electrode having the same or a lower voltage potential than the second electrode; wherein the second electrode includes a buried electrode at least partially positioned below the bitline electrode and the third electrode.

Abstract: An integrated circuit having memory cells and a method of manufacture is disclosed. One embodiment provides a switching active volume and a selection transistor coupled in series between a first electrode and a second electrode. The selection transistor is a vertical transistor for at least partially guiding a substantially vertical current flow. The second electrode includes a buried diffused ground plate formed in a substrate. A metal-containing region at least partially contacting the buried diffused ground plate is provided, the metal-containing region at least extending below the selection transistor.

Abstract: A memory includes transistors in rows and columns providing an array and conductive lines in columns across the array. The memory includes phase change elements contacting the conductive lines and self-aligned to the conductive lines. Each phase change element is coupled to one side of a source-drain path of a transistor.

Abstract: An integrated circuit includes a contact, a first spacer, and a first electrode including a first portion and a second portion. The second portion contacts the contact and is defined by the first spacer. The integrated circuit includes a second electrode and resistivity changing material between the second electrode and the first portion of the first electrode.

Abstract: The invention relates to a method for operating a memory device, and to a memory device with a plurality of memory cells (1) which each have at least one switching device (13) assigned thereto for controlling, as well as a current supply line and a current discharge line (11, 12), wherein said current supply line (11) and said current discharge line (12) are substantially parallel to each other.

Abstract: A method is disclosed by means of which contact holes (K1), (K2) and (K3), leading to integrated components can be produced with just one structuring mask, whereby contact holes (K1) and (K3) lead to contact regions (25e, 45e) in the substrate (5) and contact holes (K2) lead to contact regions (35c, 50c) located on layer stacks (35, 50). An auxiliary layer is used for the etching of contact holes (K1), (K2), (K3), which covers a part of the contact holes and thus serves as a selection mask. The auxiliary layer can be structured with a low-resolution lithography in comparison with the mask, such that only one single high-resolution lithography is necessary for the formation of all contact holes (K1), (K2), (K3). The method is particularly suitable for the simultaneous production of contact holes for transistors in the cell field and the logic field of a DRAM.

Abstract: An integrated circuit having a memory cell array and a method of forming an integrated circuit is disclosed. One embodiment provides bitlines running along a first direction, wordlines running along a second direction substantially perpendicular to the first direction, active areas and bitline contacts. The bitline contacts are arranged in columns extending in the second direction and in rows extending in the first direction. A distance between neighboring bitlines is DL, and a distance between neighboring bitline contacts is DC, DC being measured parallel to the first direction. The following relation holds: 1/2.25?DL/DC?1/1.75.

Abstract: An integrated circuit having a memory arrangement including capacitor elements and further capacitor elements is disclosed. One embodiment provides a substrate layer with contact pads and further contact pads; the capacitor elements being disposed in a first level on the substrate layer and connected with the contact pads; the further capacitor elements being disposed in a second level above the first level; contact elements being disposed between the capacitor elements and connected with the further contact pads; the further capacitor elements being disposed above the contact elements and being connected with the contact elements.

Abstract: An integrated circuit, a memory cell, memory device and method of operating the memory device is disclosed. In one embodiment, an integrated circuit having a resistively switching memory cell includes a bitline electrode and a second electrode having a lower voltage potential than the bitline electrode; a switching active volume and a selection transistor connected in series between the bitline electrode and the second electrode. The second electrode is connected, via a connection transistor, to a third electrode having the same or a lower voltage potential than the second electrode; wherein the second electrode includes a buried electrode at least partially positioned below the bitline electrode and the third electrode.

Abstract: An integrated circuit including an array of memory cells having dual gate transistors with curved current flow, and method for operation and fabrication is disclosed. In one embodiment, in a substrate an array of transistors is formed for selecting one of a plurality of memory cells by selecting a pair of adjacent word lines and a bit line. For minimizing the area of a memory cell and reducing complexity in production an array of dual gate transistors having a curved current flow is disclosed, wherein a small portion of a current is allowed to flow through adjacent memory cells.

Abstract: A method of forming an integrated circuit having a capacitor is disclosed. In one embodiment, the method includes forming a capacitor element with a first electrode, a dielectric layer and a second electrode. The capacitor element is formed using a support layer.

Abstract: An integrated circuit includes transistors in rows and columns providing an array, conductive lines in columns across the array, and resistivity changing material elements contacting the conductive lines and self-aligned to the conductive lines. The integrated circuit includes electrodes contacting the resistivity changing material elements, each electrode self-aligned to a conductive line and coupled to one side of a source-drain path of a transistor.

Abstract: An array of vertical transistor cells formed in a substrate for selecting one of a plurality of memory cells by selecting a word line and a bit line is disclosed. In one embodiment, for minimizing the area of a cell and reducing complexity in production a plurality of parallel insulating trenches filled with an insulating material and a plurality of perpendicular gate electrode trenches is formed, the gate electrode trenches filled with a suitable gate electrode material disrupted by the insulating material thus forming separate gate electrodes arranged below the reference plane. The insulating trenches and the gate electrode trenches form distinct active areas of transistors in the substrate, wherein two gate electrodes located at opposing sidewalls of an active area form a double gate electrode of a transistor, and wherein a plurality of gate electrodes is coupled to a word line running perpendicular to the gate electrode trenches and above the reference plane.

Abstract: A memory includes transistors in rows and columns providing an array, first conductive lines in columns across the array, and second conductive lines encapsulated by dielectric material in rows across the array. Each second conductive line is coupled to one side of the source-drain path of the transistors in each row. The memory includes phase change elements between the second conductive lines and contacting the first conductive lines and self-aligned to the first conductive lines. Each phase change element is coupled to the other side of the source-drain path of a transistor.

Abstract: A substrate forming an array of vertical transistor cells for selecting one of a plurality of memory cells and wherein each memory cell couples a transistor to a bit line via a memory element and is addressable by selecting two word lines and a bit line is disclosed. For minimizing the area of a cell and reducing complexity in production, one word line trench takes one word line, wherein in a first embodiment a first word line in a first word line trench forms a plurality of gate electrodes on one sidewall of active areas of a first and a second, adjacent row of transistor cells in word line direction, and wherein a second word line in an adjacent word line trench forms a plurality of gate electrodes on the opposite sidewall of active areas of the second and of a third row of transistor cells in wordline direction.

Abstract: A substrate forming an array of vertical transistor cells for selecting one of a plurality of memory cells and wherein each memory cell couples a transistor to a bit line via a memory element and is addressable by selecting two word lines and a bit line is disclosed. For minimizing the area of a cell and reducing complexity in production, one word line trench takes one word line, wherein in a first embodiment a first word line in a first word line trench forms a plurality of gate electrodes on one sidewall of active areas of a first and a second, adjacent row of transistor cells in word line direction, and wherein a second word line in an adjacent word line trench forms a plurality of gate electrodes on the opposite sidewall of active areas of the second and of a third row of transistor cells in wordline direction.